Star Quotes (55)

'Arcturus' is his other name-
I'd rather call him 'Star.'
It's very mean of Science
To go and interfere!
'Arcturus' (c.1859). The Complete Poems of Emily Dickinson, ed. Thomas H. Johnson (1970), 36.
See also:  |  Poem (51)

Quod est ante pedes nemo spectat: coeli scrutantur plagas.
No one sees what is before his feet: they scan the tracks of heaven.
In Jon R. Stone, The Routledge Dictionary of Latin Quotations (2005), 101.
See also:  |  Feet (2)  |  See (7)

A hundred years ago, Auguste Compte, … a great philosopher, said that humans will never be able to visit the stars, that we will never know what stars are made out of, that that's the one thing that science will never ever understand, because they're so far away. And then, just a few years later, scientists took starlight, ran it through a prism, looked at the rainbow coming from the starlight, and said: 'Hydrogen!' Just a few years after this very rational, very reasonable, very scientific prediction was made, that we'll never know what stars are made of.
Quoted in Nina L. Diamond, Voices of Truth (2000), 332.
See also:  |  Hydrogen (13)  |  Spectroscopy (5)

All of my life, I have been fascinated by the big questions that face us, and have tried to find scientific answers to them. If, like me, you have looked at the stars, and tried to make sense of what you see, you too have started to wonder what makes the universe exist.
From website for PBS program, Stephen Hawking's Universe (1997).
See also:  |  Answer (24)  |  Autobiography (42)  |  Existence (44)  |  Fascination (4)  |  Question (45)  |  Universe (138)  |  Wonder (16)

An attempt to study the evolution of living organisms without reference to cytology would be as futile as an account of stellar evolution which ignored spectroscopy.
'Foreword', in C. D. Darlington, Recent Advances in Cytology (1937), v.
See also:  |  Cell (43)  |  Evolution (229)  |  Spectroscopy (5)

An electron is no more (and no less) hypothetical than a star. Nowadays we count electrons one by one in a Geiger counter, as we count the stars one by one on a photographic plate.
Messenger Lectures (1934), New Pathways in Science (1935), 21.
See also:  |  Electron (27)  |  Hypothesis (83)

Aristotle ... imputed this symphony of the heavens ... this music of the spheres to Pythagorus. ... But Pythagoras alone of mortals is said to have heard this harmony ... If our hearts were as pure, as chaste, as snowy as Pythagoras' was, our ears would resound and be filled with that supremely lovely music of the wheeling stars.
'On the Music of the Spheres'. Second Prolusion. In John Milton and Merritt Yerkes Hughes (ed.), Complete Poems and Major Prose (1957, 2003), 603-604.
See also:  |  Aristotle (85)  |  Harmony (7)  |  Mortal (2)  |  Pythagoras (11)

As to what Simplicius said last, that to contend whether the parts of the Sun, Moon, or other celestial body, separated from their whole, should naturally return to it, is a vanity, for that the case is impossible, it being clear by the demonstrations of Aristotle that the celestial bodies are impassible, impenetrable, unpartable, etc., I answer that none of the conditions whereby Aristotle distinguishes the celestial bodies from the elementary has any foundation other than what he deduces from the diversity of their natural motions; so that, if it is denied that the circular motion is peculiar to celestial bodies, and affirmed instead that it is agreeable to all naturally moveable bodies, one is led by necessary confidence to say either that the attributes of generated or ungenerated, alterable or unalterable, partable or unpartable, etc., equally and commonly apply to all bodies, as well to the celestial as to the elementary, or that Aristotle has badly and erroneously deduced those from the circular motion which he has assigned to celestial bodies.
Dialogue on the Great World Systems (1632). Revised and Annotated by Giorgio De Santillana (1953), 45.
See also:  |  Aristotle (85)  |  Moon (34)  |  Orbit (16)  |  Sun (37)

Astronomers work always with the past; because light takes time to move from one place to another, they see things as they were, not as they are.
The Telescope Handbook and Star Atlas (1967), 33.
See also:  |  Astronomer (13)  |  History (61)  |  Light (39)

At the moment I am occupied by an investigation with Kirchoff which does not allow us to sleep. Kirchoff has made a totally unexpected discovery, inasmuch as he has found out the cause for the dark lines in the solar spectrum and can produce these lines artificially intensified both in the solar spectrum and in the continuous spectrum of a flame, their position being identical with that of Fraunhofer’s lines. Hence the path is opened for the determination of the chemical composition of the Sun and the fixed stars.
Letter to H.E. Roscoe (Nov 1859). In The Life and Experiences of Sir Henry Enfield Roscoe (1906), 71.
See also:  |  Absorption Line (2)  |  Biography (152)  |  Composition (7)  |  Discovery (166)  |  Flame (7)  |  Kirchoff_Gustav (2)  |  Sleep (10)  |  Solar Spectrum (2)  |  Spectrum (6)  |  Sun (37)

At the moment I am occupied by an investigation with Kirchoff which does not allow us to sleep. Kirchoff has made a totally unexpected discovery, inasmuch as he has found out the cause for the dark lines in the solar spectrum and can produce these lines artificially intensified both in the solar spectrum and in the continuous spectrum of a flame, their position being identical with that of Fraunhofer’s lines. Hence the path is opened for the determination of the chemical composition of the Sun and the fixed stars.
Letter to H.E. Roscoe (Nov 1859). In The Life and Experiences of Sir Henry Enfield Roscoe (1906), 81.
See also:  |  Absorption Line (2)  |  Biography (152)  |  Composition (7)  |  Discovery (166)  |  Flame (7)  |  Kirchoff_Gustav (2)  |  Sleep (10)  |  Solar Spectrum (2)  |  Spectrum (6)  |  Sun (37)

But in the heavens we discover by their light, and by their light alone, stars so distant from each other that no material thing can ever have passed from one to another; and yet this light, which is to us the sole evidence of the existence of these distant worlds, tells us also that each of them is built up of molecules of the same kinds as those which we find on earth. A molecule of hydrogen, for example, whether in Sirius or in Arcturus, executes its vibrations in precisely the same time. Each molecule, therefore, throughout the universe, bears impressed on it the stamp of a metric system as distinctly as does the metre of the Archives at Paris, or the double royal cubit of the Temple of Karnac ... the exact quantity of each molecule to all others of same kind gives it, as Sir John Herschel has well said, the essential character of a manufactured article and precludes the idea of its being external and self-existent.
'Molecules', 1873. In W. D. Niven (ed.), The Scientific Papers of James Clerk Maxwell (1890), Vol. 2, 375-6.
See also:  |  Character (10)  |  Distance (4)  |  Earth (93)  |  Evidence (31)  |  Existence (44)  |  Sir John Herschel (13)  |  Hydrogen (13)  |  Kind (2)  |  Light (39)  |  Metric System (3)  |  Molecule (39)  |  Vibration (3)

From his observations, he concluded that it [Tycho's supernova] was not some kind of comet or a fiery meteor, whether these be generated beneath the Moon or above the Moon, but that it is a star shining in the firmament itself - one that has never previously been seen before our time, in any age since the beginning of the world.
See also:  |  Supernova (4)

I believe as a matter of faith that the extension of space travel to the limits of the solar system will probably be accomplished in several decades, perhaps before the end of the century. Pluto is 4000 million miles from the sun. The required minimum launching velocity is about 10 miles per second and the transit time is 46 years. Thus we would have to make the velocity considerably higher to make the trip interesting to man. Travel to the stars is dependent on radically new discoveries in science and technology. The nearest star is 25 million million miles way and requires a travel time of more than four years at the speed of light. Prof. Dr. Ing. E. Sanger has speculated that velocities comparable with the speed of light might be attained in the next century, but such extrapolation of current technology is probably not very reliable.
In Popular Mechanics (Sep 1961), 262.
See also:  |  Space Travel (9)

I do not study to understand the transit of the stars. My soul has never sought for responses from ghosts. I detest all sacrilegious rites.
Confessions [c.397], Book X, chapter 35 (56), trans. H. Chadwick (1991),212.
See also:  |  Astronomy (65)

I have looked further into space than ever human being did before me. I have observed stars of which the light, it can be proved, must take two million years to reach the earth.
Quoted in C. A. Lubbock, The Herschel Chronicle (1933), 336.

I will not now discuss the Controversie betwixt some of the Modem Atomists, and the Cartesians; the former of whom think, that betwixt the Earth and the Stars, and betwixt these themselves there are vast Tracts of Space that are empty, save where the beams of Light do pass through them; and the later of whom tell us, that the Intervals betwixt the Stars and Planets (among which the Earth may perhaps be reckon'd) are perfectly fill'd, but by a Matter far subtiler than our Air, which some call Celestial, and others Æther. I shall not, I say, engage in this controversie, but thus much seems evident, That If there be such a Celestial Matter, it must ' make up far the Greatest part of the Universe known to us. For the Interstellar part of the world (If I may so stile it) bears so very great a proportion to the Globes, and their Atmospheres too, (If other Stars have any as well as the Earth,) that It Is almost incomparably Greater in respect of them, than all our Atmosphere is in respect of the Clouds, not to make the comparison between the Sea and the Fishes that swim in it.
A Continuation of New Experiments Physico-Mechanical, Touching the Spring and Weight of the Air, and their Effects (1669), 127.
See also:  |  Atmosphere (18)  |  Dark Matter (2)  |  Earth (93)  |  Ether (9)  |  Universe (138)

If one might wish for impossibilities, I might then wish that my children might be well versed in physical science, but in due subordination to the fulness and freshness of their knowledge on moral subjects. ... Rather than have it the principal thing in my son's mind, I would gladly have him think that the sun went round the earth, and that the stars were so many spangles set in the bright blue firmament.
Letter to Dr. Greenhill (9 May 1836). In Arthur Penrhyn Stanley, The Life and Correspondence of Thomas Arnold (2nd Ed., 1846), 277.
See also:  |  Firmament (2)  |  Mind (116)  |  Orbit (16)  |  Son (3)  |  Sun (37)

In the first book I shall describe all the positions of the spheres, along with the motions which I attribute to the Earth, so that the book will contain as it were the general structure of the universe. In the remaining books I relate the motions of the remaining stars, and all the spheres, to the mobility of the Earth, so that it can be thence established how far the motions and appearances of the remaining stars and spheres can be saved, if they are referred to the motions of the Earth.
'To His Holiness Pope Paul III', in Copernicus: On the Revolutions of the Heavenly Spheres (1543), trans, A. M. Duncan (1976), 26.
See also:  |  Earth (93)

It may be that the old astrologers had the truth exactly reversed, when they believed that the stars controlled the destinies of men. The time may come when men control the destinies of stars.
The View from Serendip (1977), 79.
See also:  |  Astrologer (2)  |  Truth (241)

It took less than an hour to make the atoms, a few hundred million years to make the stars and planets, but five billion years to make man!
The Creation of the Universe (1952), 139.
See also:  |  Atom (85)  |  Big Bang (15)  |  Man (112)  |  Planet (34)

It was an admirable reply of a converted astronomer, who, when interrogated concerning his comparative estimate of religion and the science he had formerly idolized, answered, 'I am now bound for heaven, and I take the stars in my way.'
Anonymous
In Tyron Edwards. A Dictionary of Thoughts (1908), 506.
See also:  |  Astronomer (13)  |  Science And Religion (76)

Let me describe briefly how a black hole might be created. Imagine a star with a mass 10 times that of the sun. During most of its lifetime of about a billion years the star will generate heat at its center by converting hydrogen into helium. The energy released will create sufficient pressure to support the star against its own gravity, giving rise to an object with a radius about five times the radius of the sun. The escape velocity from the surface of such a star would be about 1,000 kilometers per second. That is to say, an object fired vertically upward from the surface of the star with a velocity of less than 1,000 kilometers per second would be dragged back by the gravitational field of the star and would return to the surface, whereas an object with a velocity greater than that would escape to infinity.
When the star had exhausted its nuclear fuel, there would be nothing to maintain the outward pressure, and the star would begin to collapse because of its own gravity. As the star shrank, the gravitational field at the surface would become stronger and the escape velocity would increase. By the time the radius had got down to 10 kilometers the escape velocity would have increased to 100,000 kilometers per second, the velocity of light. After that time any light emitted from the star would not be able to escape to infinity but would be dragged back by the gravitational field. According to the special theory of relativity nothing can travel faster than light, so that if light cannot escape, nothing else can either. The result would be a black hole: a region of space-time from which it is not possible to escape to infinity.
'The Quantum Mechanics of Black Holes', Scientific American, 1977, 236, 34-40.
See also:  |  Black Hole (7)  |  Helium (4)  |  Hydrogen (13)  |  Light (39)

Man is a little germ that lives on an unimportant rock ball that revolves about a small star at the outskirts of an ordinary galaxy. ... I am absolutely amazed to discover myself on this rock ball rotating around a spherical fire. It’s a very odd situation. And the more I look at things I cannot get rid of the feeling that existence is quite weird.
From lecture, 'Images of God,' available as a podcast, and part of The Tao of Philosophy six-CD collection of lectures by Watts.
See also:  |  Earth (93)  |  Existence (44)  |  Galaxy (5)  |  Germ (5)  |  Importance (14)  |  Man (112)  |  Revolve (2)  |  Rock (23)  |  Sun (37)

Man is slightly nearer to the atom than to the star. … From his central position man can survey the grandest works of Nature with the astronomer, or the minutest works with the physicist. … [K]nowledge of the stars leads through the atom; and important knowledge of the atom has been reached through the stars.
Lecture 1. Stars and Atoms (1928, 2007), 9.
See also:  |  Astronomy (65)  |  Atom (85)  |  Man (112)  |  Nature (243)  |  Physics (65)

No one knows the diversity in the world, not even to the nearest order of magnitude. … We don't know for sure how many species there are, where they can be found or how fast they're disappearing. It's like having astronomy without knowing where the stars are.
Quoted in Jamie Murphy and Andrea Dorfman, 'The Quiet Apocalypse,' Time (13 Oct 1986).
See also:  |  Astronomy (65)  |  Diversity (16)  |  Extinction (27)  |  Species (49)

Not from the stars do I my judgement pluck,
And yet methinks I have astronomy.
But not to tell of good or evil luck,
Of plagues, of dearths, or season's quality;
Nor can I fortune to brief minutes tell ... Or say with princes if it shall go well ...
Sonnet 14 (1609). The Sonnets, (1906), 14.
See also:  |  Astrology (15)  |  Astronomy (65)  |  Judgment (5)

One important object of this original spectroscopic investigation of the light of the stars and other celestial bodies, namely to discover whether the same chemical elements as those of our earth are present throughout the universe, was most satisfactorily settled in the affirmative.
Scientific Papers of Sir William Huggins, (ed.) Sir William Huggins & Lady Huggins (1909), 49, footnote [added in 1909 to 'On the Spectra of some of the Fixed Stars' (1864)]
See also:  |  Element (19)  |  Light (39)  |  Spectroscopy (5)

Pick a flower on Earth and you move the farthest star.
Attributed. In Benjamin Crowell, Newtonian Physics (2000), 193.
See also:  |  Flower (8)  |  Gravity (34)

Put three grains of sand inside a vast cathedral, and the cathedral will be more closely packed with sand than space is with stars.
Our Home in Space.' In Arthur Finley Scott (ed.), Modern Essays (1947), Vol. 2, 161.
See also:  |  Space (23)

Should the research worker of the future discover some means of releasing this [atomic] energy in a form which could be employed, the human race will have at its command powers beyond the dream of scientific fiction, but the remotest possibility must always be considered that the energy once liberated will be completely uncontrollable and by its intense violence detonate all neighbouring substances. In this event, the whole of the hydrogen on earth might be transformed at once and the success of the experiment published at large to the universe as a new star.
'Mass Spectra and Isotopes', Nobel Lecture, 12 December 1922. In Nobel Lectures, Chemistry, 1922-1941 (1966), 20.
See also:  |  Atomic Energy (3)  |  Hydrogen (13)

Since, then, there is no objection to the mobility of the Earth, I think it must now be considered whether several motions are appropriate for it, so that it can be regarded as one of the wandering stars. For the fact that it is not the centre of all revolutions is made clear by the apparent irregular motion of the wandering stars, and their variable distances from the Earth, which cannot be understood in a circle having the same centre as the Earth.
'Book One. Chapter IX. Whether several motions can be attributed to the Earth, and on the centre of the universe', in Copernicus: On the Revolutions of the Heavenly Spheres (1543), trans. A. M. Duncan (1976), 46.
See also:  |  Earth (93)

Tell a man that there are 300 billion stars in the universe, and he'll believe you ... Tell him that a bench has wet paint upon it and he'll have to touch it to be sure.
Anonymous
Occasionally seen attributed to Albert Einstein, but without citation, so it is most likely anonymous.
See also:  |  Belief (37)  |  Experiment (199)  |  Paint (2)  |  Sure (2)  |  Touch (4)  |  Universe (138)

Tell me these things, Olympian Muses, tell
From the beginning, which first came to be?
Chaos was first of all, but next appeared
Broad-bosomed Earth, Sure standing-place for all
The gods who live on snowy Olympus' peak,
And misty Tartarus, in a recess
Of broad-pathed earth, and Love, most beautiful
Of all the deathless gods. He makes men weak,
He overpowers the clever mind, and tames
The spirit in the breasts of men and gods.
From Chaos came black Night and Erebos.
And Night in turn gave birth to Day and Space
Whom she conceived in love to Erebos.
And Earth bore starry Heaven, first, to be
An equal to herself, to cover her
All over, and to be a resting-place,
Always secure, for all the blessed gods.Theogony, I. 114-28.
Heslod
In Hesiod and Theognis, trans. Dorothea Wender (1973), 26-7.
See also:  |  Chaos (22)  |  Day (6)  |  Earth (93)  |  Night (7)  |  Space (23)

The discovery of one star is the promise of another.
Pleasures, Objects, and Advantages of Literature (1855), 151.
See also:  |  Discovery (166)

The helium which we handle must have been put together at some time and some place. We do not argue with the critic who urges that the stars are not hot enough for this process; we tell him to go and find a hotter place.
The Internal Constitution of the Stars (1926), 301.
See also:  |  Helium (4)

The mathematical giant [Gauss], who from his lofty heights embraces in one view the stars and the abysses …
Kurzer Grundriss eines Versuchs (1851), 44. In Robert Édouard Moritz, Memorabilia Mathematica; Or, The Philomath's Quotation-book (1914), 158.
See also:  |  Abyss (2)  |  Embrace (3)  |  Carl Friedrich Gauss (52)  |  Giant (3)  |  Height (2)  |  Mathematician (66)  |  View (4)

The motion of the stars over our heads is as much an illusion as that of the cows, trees and churches that flash past the windows of our train.
The Stars in their Courses (1931), 3.
See also:  |  Motion (24)

The next care to be taken, in respect of the Senses, is a supplying of their infirmities with Instruments, and, as it were, the adding of artificial Organs to the natural; this in one of them has been of late years accomplisht with prodigious benefit to all sorts of useful knowledge, by the invention of Optical Glasses. By the means of Telescopes, there is nothing so far distant but may be represented to our view; and by the help of Microscopes, there is nothing so small, as to escape our inquiry; hence there is a new visible World discovered to the understanding. By this means the Heavens are open'd, and a vast number of new Stars, and new Motions, and new Productions appear in them, to which all the ancient Astronomers were utterly Strangers. By this the Earth it self, which lyes so neer us, under our feet, shews quite a new thing to us, and in every little particle of its matter, we now behold almost as great a variety of creatures as we were able before to reckon up on the whole Universe it self.
Micrographia, or some Physiological Descriptions of Minute Bodies made by Magnifying Glasses with Observations and Inquiries thereupon (1665), preface, sig. A2V.
See also:  |  Instrument (8)  |  Knowledge (330)  |  Microscope (27)  |  Organ (20)  |  Sense (32)  |  Telescope (20)

The poet alone knows astronomy, chemistry, vegetation, and animation, for he does not stop at these facts, but employs them as signs. He knows why the plain, or meadow of space, was strown with these flowers we call suns, and moons, and stars; why the deep is adorned with animals, with men, and gods; for, in every word he speaks he rides on them as the horses of thought.
Essay, 'The Poet', in Ralph Waldo Emerson, Alfred Riggs Ferguson (ed.) and Jean Ferguson Carr (ed.), The Collected Works of Ralph Waldo Emerson, Volume III, Essays: Second Series (1984), 104.
See also:  |  Animal (57)  |  Astronomy (65)  |  Chemistry (87)  |  Universe (138)  |  Vegetation (4)

The prohibition of science would be contrary to the Bible, which in hundreds of places teaches us how the greatness and the glory of God shine forth marvelously in all His works, and is to be read above all in the open book of the heavens. And let no one believe that the reading of the most exalted thoughts which are inscribed upon these pages is to be accomplished through merely staring up at the radiance of the stars. There are such profound secrets and such lofty conceptions that the night labors and the researches of hundreds and yet hundreds of the keenest minds, in investigations extending over thousands of years would not penetrate them, and the delight of the searching and finding endures forever.
As stated by William H. Hobbs, 'The Making of Scientific Theories,' Address of the president of Michigan Academy of Science at the Annual Meeting, Ann Arbor (28 Mar 1917) in Science (11 May 1917), N.S. 45, No. 1167, 443.
See also:  |  God (121)  |  Investigation (25)  |  Nature (243)  |  Science (444)

The radical novelty of modern science lies precisely in the rejection of the belief, which is at the heart of all popular religion, that the forces which move the stars and atoms are contingent upon the preferences of the human heart.
A Preface to Morals (1929, 1982), 127.
See also:  |  Atom (85)  |  Belief (37)  |  Force (14)  |  Heart (21)  |  Novelty (4)  |  Preference (2)  |  Radical (5)  |  Rejection (4)  |  Science And Religion (76)

The star [Tycho's supernova] was at first like Venus and Jupiter, giving pleasing effects; but as it then became like Mars, there will next come a period of wars, seditions, captivity and death of princes, and destruction of cities, together with dryness and fiery meteors in the air, pestilence, and venomous snakes. Lastly, the star became like Saturn, and there will finally come a time of want, death, imprisonment and all sorts of sad things.
See also:  |  Observation (142)  |  Supernova (4)

The wonder is, not that the field of the stars is so vast, but that man has measured it.
The Garden of Epicurus (1894) translated by Alfred Allinson, in The Works of Anatole France in an English Translation (1920), 16.
See also:  |  Measurement (62)  |  Wonder (16)

There are so many stars shining in the sky, so many beautiful things winking at you, but when Venus comes out, all the others are waned, they are pushed to the background.
From the play Galileo Galilei (2001) .
See also:  |  Background (2)  |  Sky (7)  |  Venus (5)

There is a single general space, a single vast immensity which we may freely call void: in it are unnumerable globes like this on which we live and grow, this space we declare to be infinite, since neither reason, convenience, sense-perception nor nature assign to it a limit.
Quoted in Joseph Silk, The Big Bang (1997), 89.
See also:  |  Earth (93)  |  Infinity (12)  |  Universe (138)

These earthly godfathers of heaven's lights
That give a name to every fixed star,
Have no more profit of their shining nights
Than those that walk and wot not what they are.
The Sonnets, (1906), 169.
See also:  |  Astronomer (13)  |  Name (18)

Time is but a stream I go a-fishing in. I drink at it; but while I drink I see the sandy bottom, and detect how shallow it is. Its thin current slides away, but eternity remains. I would drink deeper; fish in the sky, whose bottom is pebby with stars.
Walden (1882), Vol. 1, 155.
See also:  |  Fishing (2)  |  Sky (7)  |  Time (55)

Two things fill the mind with ever new and increasing admiration and awe, the oftener and more steadily they are reflected on: the starry heavens above me and the moral law within me.
Critique of Practical Reason (1788). In L. W. Beck (ed. and trans.), Critique of Practical Reason and Other Writings in Moral Philosophy (1949), 258.
See also:  |  Admiration (4)  |  Awe (4)  |  Law (134)  |  Mind (116)  |  Morality (12)

We find it hard to picture to ourselves the state of mind of a man of older days who firmly believed that the Earth was the centre of the Universe, and that all the heavenly bodies revolved around it. He could feel beneath his feet the writhings of the damned amid the flames; very likely he had seen with his own eyes and smelt with his own nostrils the sulphurous fumes of Hell escaping from some fissure in the rocks. Looking upwards, he beheld ... the incorruptible firmament, wherein the stars hung like so many lamps.
The Garden of Epicurus (1894) translated by Alfred Allinson, in The Works of Anatole France in an English Translation (1920), 11.
See also:  |  Flame (7)  |  Hell (5)  |  Man (112)  |  Sulphur (5)  |  Universe (138)

We have been forced to admit for the first time in history not only the possibility of the fact of the growth and decay of the elements of matter. With radium and with uranium we do not see anything but the decay. And yet, somewhere, somehow, it is almost certain that these elements must be continuously forming. They are probably being put together now in the laboratory of the stars. ... Can we ever learn to control the process. Why not? Only research can tell.
'The Significance of Radium,' an address delivered (in connection with the presentation of a gram of radium to Madame Curie) at the National Museum, Washington, D.C. (25 May 1921). In Science (1921), 54, No. 1383, 1921. In Rodney P. Carlisle, Scientific American Inventions and Discoveries (2004), 375.
See also:  |  Element (19)  |  Fusion (4)  |  Matter (61)  |  Radium (8)  |  Research (208)  |  Uranium (5)

When I had satisfied myself that no star of that kind had ever shone before, I was led into such perplexity by the unbelievability of the thing that I began to doubt the faith of my own eyes.
See also:  |  Supernova (4)

Who are we? We find that we live on an insignificant planet of a humdrum star lost between two spiral arms in the outskirts of a galaxy, tucked away in some forgotten corner of a universe in which there are far more galaxies than people.
Cosmos (1985), 160.
See also:  |  Corner (2)  |  Earth (93)  |  Galaxy (5)  |  People (10)  |  Planet (34)  |  Universe (138)

[On the 11th day of November 1572], in the evening, after sunset, when, according to my habit, I was contemplating the stars in a clear sky, I noticed that a new and unusual star, surpassing all others in brilliancy, was shining almost directly over my head; and since I had, almost from boyhood, known all the stars of the heavens perfectly (there is no great difficulty in gaining that knowledge), it was quite evident to me that there had never before been any star in that place in the sky, even the smallest, to say nothing of a star so conspicuously bright as this. I was so astonished at this sight that I was not ashamed to doubt the trustworthiness of my own eyes. But when I observed that others, too, on having the place pointed out to them, could see that there was a star there, I had no further doubts. A miracle indeed, either the greatest of all that have occurred in the whole range of nature since the beginning of the world, or one certainly that is to be classed with those attested by the Holy Oracles.
De Stello. Nova (On the New Star) (1573). Quoted in H. Shapley and A. E. Howarth (eds.), Source Book in Astronomy (1929), 13.

[Science] is the literature of God written on the stars—the trees—the rocks—and more important because [of] its marked utilitarian character.
Quoted in Allan Peskin, Garfield: A Biography (1978), 57.
See also:  |  Astronomy (65)  |  Biology (42)  |  Geology (109)  |  Importance (14)  |  Rock (23)  |  Science (444)  |  Tree (18)

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